Polarization-Dependent Loss Mitigation via Orthogonal Design Precoding and Interference Cancellation

Recent work by Shehadeh and Kschischang provides a simple capacity-achieving scheme for channels with polarization-dependent loss (PDL) under common modeling assumptions via a careful choice of orthogonal-design-based precoding and interference cancellation. This letter extends that work with a simulation-based demonstration showing that this scheme remains highly effective at mitigating PDL in the highly practical setting of 16-QAM with Chase-decoded extended Hamming inner codes rather than the near-capacity inner codes considered in the original work. An alternative near-optimal variation of this scheme is also provided requiring only one inner code rather than two and suffering no penalty in the absence of PDL, making it much more practical.

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Publication Details

Journal
IEEE Photonics Technology Letters
Published
2025-03-29
DOI
https://doi.org/10.1109/lpt.2025.3555919
Primary Topic
graph theory and CDMA systems
Type
article
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article

Polarization-Dependent Loss Mitigation via Orthogonal Design Precoding and Interference Cancellation

Mohannad Shehadeh, Frank R. Kschischang
IEEE Photonics Technology Letters
graph theory and CDMA systems
article

Polarization-Dependent Loss Mitigation via Orthogonal Design Precoding and Interference Cancellation

Mohannad Shehadeh, Frank R. Kschischang
article en

Abstract

Recent work by Shehadeh and Kschischang provides a simple capacity-achieving scheme for channels with polarization-dependent loss (PDL) under common modeling assumptions via a careful choice of orthogonal-design-based precoding and interference cancellation. This letter extends that work with a simulation-based demonstration showing that this scheme remains highly effective at mitigating PDL in the highly practical setting of 16-QAM with Chase-decoded extended Hamming inner codes rather than the near-capacity inner codes considered in the original work. An alternative near-optimal variation of this scheme is also provided requiring only one inner code rather than two and suffering no penalty in the absence of PDL, making it much more practical.

IEEE Photonics Technology LettersVol. 37(8)
University of Toronto (CA)
Climate action
Openalex Percentile: Top 95%
graph theory and CDMA systems
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Polarization-Dependent Loss Mitigation via Orthogonal Design Precoding and Interference Cancellation — Mohannad Shehadeh, Frank R. Kschischang · IEEE Photonics Technology Letters (2025) | TGRS Research Map | TGRS